Results 111 to 120 of about 18,462 (237)

Striatal Cholinergic Interneurons Control Physical Nicotine Withdrawal via Muscarinic Receptor Signaling

Advanced Science, Volume 11, Issue 47, December 18, 2024.
The role of striatal cholinergic interneurons in nicotine withdrawal is explored. Inhibition of striatal cholinergic interneurons (ChIs) ameliorated nicotine‐dependent alterations in striatal neural population activity, nicotine withdrawal‐induced deficit in striatal dopamine release, and physical nicotine withdrawal.
Baeksun Kim, Han Ah Kim, Junsung Woo, Hyeon‐Jeong Lee, Tae Kyoo Kim, Hophil Min, C. Justin Lee, Heh‐In Im   +7 more
wiley   +1 more source

Cholinergic and endocannabinoid neuromodulatory effects overlap on neurons of the pedunculopontine nucleus of mice [PDF]

, 2015
The pedunculopontine nucleus (PPN) is a part of the reticular activating system and one of the main sources of the cholinergic fibers in the midbrain, while it is also subject to cholinergic modulation.
Bordas, Csilla, Kovács, Adrienn, Pál, Balázs Zoltán   +2 more
core   +1 more source

Regulation of Src Family Tyrosine Kinases in the Rat Striatum by Muscarinic Acetylcholine Receptors [PDF]

, 2017
Acetylcholine is an important neurotransmitter in the mammalian brain. This transmitter binds to muscarinic acetylcholine receptors (mAChR) to regulate activity of a variety of intracellular signaling molecules.
Faris, Hunter
core  

δ-Opioid and dopaminergic processes in accumbens shell modulate the cholinergic control of predictive learning and choice [PDF]

, 2014
Decision-making depends on the ability to extract predictive information from the environment to guide future actions. Outcome-specific Pavlovian-instrumental transfer (PIT) provides an animal model of this process in which a stimulus predicting a ...
Balleine B.W., Bertran-Gonzalez, Jesus, Chieng, Billy C., Laurent, Vincent   +3 more
core   +1 more source

Association between the CHRM2 gene and intelligence in a sample of 304 Dutch families. [PDF]

, 2006
The CHRM2 gene is thought to be involved in neuronal excitability, synaptic plasticity and feedback regulation of acetylcholine release and has previously been implicated in higher cognitive processing.
Boomsma D.I., Cherny S.S., D. I. Boomsma, D. Posthuma, E. J. C. de Geus, Hulme E.C., J. C. Polderman, Levey A.I., Linder C.C., M. F. Gosso, M. van Belzen, Meulenbelt I., Miller S.A., Montagutelli X., P. Heutink, Quirion R., Wechsler D., Wechsler D., Wei J., Wess J., Zhang W.   +20 more
core   +3 more sources

The varieties of the psychedelic experience: A preliminary study of the association between the reported subjective effects and the binding affinity profiles of substituted phenethylamines and tryptamines [PDF]

, 2018
Classic psychedelics are substances of paramount cultural and neuroscientific importance. A distinctive feature of psychedelic drugs is the wide range of potential subjective effects they can elicit, known to be deeply influenced by the internal state of
Erowid, Earth, Erowid, Fire, Martínez Vivot, Rocío, Pallavicini, Carla, Sanz, Camila, Tagliazucchi, Enzo Rodolfo, Zamberlan, Federico   +6 more
core   +2 more sources

Acetylcholine release in mouse hippocampal CA1 preferentially activates inhibitory-selective interneurons via α4β2* nicotinic receptor activation [PDF]

, 2015
Acetylcholine (ACh) release onto nicotinic receptors directly activates subsets of inhibitory interneurons in hippocampal CA1. However, the specific interneurons activated and their effect on the hippocampal network is not completely understood ...
Bell, Karen A., Bell, L. Andrew, McQuiston, A. Rory   +2 more
core   +3 more sources

Current and Future Issues in the Development of Spinal Agents for the Management of Pain. [PDF]

, 2017
Targeting analgesic drugs for spinal delivery reflects the fact that while the conscious experience of pain is mediated supraspinally, input initiated by high intensity stimuli, tissue injury and/or nerve injury is encoded at the level of the spinal ...
Fisher, Casey J, Hockman, Tyler M, Wiese, Ashley J, Yaksh, Tony L   +3 more
core   +2 more sources

Expression and function of G-protein-coupled receptorsin the male reproductive tract [PDF]

, 2009
This review focuses on the expression and function of muscarinic acetylcholine receptors (mAChRs), α1-adrenoceptors and relaxin receptors in the male reproductive tract.
ABOUD R, ALONSO-LLAMAZARES A, ANAND-IVELL RJ, ANDERSON MB, BAN Y, BATHGATE RA, BATHGATE RA, BERNARD V, BERNARD V, BHATHAL PS, BIRDSALL NJ, BISHOP MJ, BLANCO M, BOGIC L, BORGES MOR, BRADDON SA, BRODDE OE, BURAZIN TC, BURT RP, BURT RP, CAMPOS M, Catarina S. Porto, CAULFIELD MP, CHALOTHORN D, CHAN HC, CHANG DJ, CHATURAPANICH G, CHEAH SH, CHEN S, CHEN S, COGÉ F ET AL, DA SILVA MC, DALY CJ, DANIELS DV, DAVENPORT CW, DEBRUYNE FM, DENG XF, DIVIANI D, DOCHERTY JR, DOCHERTY JR, DOGGRELL SA, DU JY, EGLEN RM, EGLEN RM, EHRÉN I, EISENHOFER G, ERRASTI AE, ESBENSHADE TA, ESSIG M, FENG S, FEVOLD HL, FILONZI M, FORD APDW, FORD APDW, FORRAY C, FUKASAWA R, GAO B, GAO B, GOBEIL F JR, GONZÁLEZ-ESPINOSA C, GRAHAM RM, GRIMM U, GUNNERSEN JM, GUNNERSEN JM, HAAG C, HAGUE C, HAGUE C, HALLS ML, HALLS ML, HALLS ML, HAMAMURA M, HANFT G, HANSELL DJ, HAUSER F, HAWRYLYSHYN KA, HEIN P, HIB J, HIB J, HIEBLE JP, HIEBLE JP, HIRASAWA A, HIRASAWA A, HIRASAWA A, HISAW FL, HOMMA Y, HORIE K, HROMETZ SL, HSU SY, HSU SY, HU K, HULEIHEL M, HULME EC, HWA J, HWA J, HWA J, II M, IRAM S, IVELL R, IVELL R, JACKSON VM, JEYABALAN A, JEYABALAN A, JIANG X, JOCKENHOVEL F, JUDSON DG, JURKIEWICZ NH, KAMAT AA, KARKANIAS GB, KERN A, KIM JK, KINGHORN EM, KOHSAKA T, KONDO S, KRAJNC-FRANKEN MA, KUBO T, KUDO M, LACEY JP, LANGER S, LANZAFAME AA, LAU WA, LAZ TM, LEEB-LUNDBERG LM, LEFKOWITZ RJ, LEFKOWITZ RJ, LEFKOWITZ RJ, LENHART JA, LEPOR H, LEUNG AYH, LIU C, LOCKWOOD DH, LONGHURST PA, LOPEZ-GIMENEZ JF, LUCAS TFG, LUCAS TFG, LUTHIN GR, MACDONALD A, MACKENZIE JF, MACKINNON AC, MALLARD NJ, MANNI L, MANNI L, Maria Christina W. Avellar, Maria Fatima M. Lázari, MARKUS RP, MARÓSTICA E, MARÓSTICA E, MCCUNE DF, MCCUNE SK, MENDES FR, MICHELOTTI GA, MICHELOTTI GA, MIRANDA HF, MIRANDA HF, MIRANDA HF, MOOKERJEE I, MORIYAMA N, MORROW AL, MURAMATSU I, MURRAY KT, NADELHAFT I, NAKAOKA H, NASU K, NASU K, NEWINGER J, NISHIS, NOTHACKER HP, OBARA K, PAPATSORIS AG, PATRÃO MT, PEDRETTI A, PEREZ DM, PETITTI N, PIASCIK MT, PIASCIK MT, PIASCIK MT, PONTARI MA, PORTER JE, PRENZEL N, PRICE DT, PRICE DT, PRICE RR, PUPO AS, PUPO AS, QUEIRÓZ DB, QUEIRÓZ DBC, QUESADA A, RAMARAO CS, RAMSAY D, RATNASOORIYA WD, RATNASOORIYA WD, RAYFORD W, RICKER DD, ROEHRBORN CG, ROKOSH DG, ROKOSH DG, RUDNER XL, RUFFOLO RR JR, RUGGIERI MR, SALAMANCA AE, SALLÉS J, SAMUEL CS, SAMUEL CS, SAMUEL CS, SANBE A, SANBORN BM, SAROSI P, SATO T, SAUSSY DL JR, SAWUTZ DG, SCARPARO AC, SCHWINN DA, SCHWINN DA, SCOFIELD MA, SCOTT DJ, SCOTT DJ, SHANNON HE, SHAPIRO E, SHEN H, SHERWOOD OD, SHIMA S, SHINOURA H, SILVA MA, SIU ER, SKINNER MK, SOKOL RZ, STEINETZ BG, SUDO S, SUGAWARA T, SUZUKI F, TAYEBATI SK, TENG CM, TENSEN CP, TESTA R, THEBAULT S, THEROUX TL, TOEWS ML, UBERTI MA, UBERTI MA, VAN DIJK MM, VAN KOPPEN CJ, VARMA DR, VENTURA S, VICENTIC A, VIVAS NM, VÁZQUEZ-PRADO J, WALDEN PD, WALKER WH, WANG JM, WANG X ET AL, WAUGH DJ, WESS J, WIER WG, XIAO L, XU Z, YAN HH, YANG M, YANG-FENG TL, YANG-FENG TL, YASUOKA A, YAZAWA H, YAZAWA H, YKI-JARVINEN H, YOSHINAGA T, ZHAO L, ZHONG H, ZHONG H, ZIMMERMANN S, ZUSCIK MJ   +267 more
core   +3 more sources

Presynaptic muscarinic acetylcholine autoreceptors (M1, M2 and M4 subtypes), adenosine receptors (A1 and A2A) and tropomyosin-related kinase B receptor (TrkB) modulate the developmental synapse elimination process at the neuromuscular junction

Molecular Brain, 2016
BackgroundThe development of the nervous system involves an initially exuberant production of neurons that make an excessive number of synaptic contacts. The initial overproduction of synapses promotes connectivity. Hebbian competition between axons with
Laura Nadal, N. Garcia, Erica Hurtado, A. Simó, M. Tomàs, M. Lanuza, M. Santafé, J. Tomàs   +7 more
semanticscholar   +1 more source